Composition Analysis of Animal Feed by HR ICP-OES

Similar documents
Analysis of Heavy Metals in Iron-based Fertilizers by HR ICP-OES

Analysis of Toxic Trace Elements in Coffee Bean Products by HR ICP-OES

Application Note PlasmaQuant PQ 9000 Elite. Analysis of Rare Earth Elements in Granite and Sandstone by HR ICP-OES. Challenge.

Analysis of steel and its alloys using the GB/T standard and an Agilent 5100 ICP-OES in dual view mode

Multi-Element Analysis of Trace Metals in Animal Feed using ICP-OES

Table I: MCL and MRL Concentrations for Contaminants Monitored Under the Safe Drinking Water Act National Primary Drinking Water Regulations

Determination of Elemental Impurities in Graphite-based Anodes using the Agilent 5110 ICP-OES

DETERMINATION OF ELEMENTS IN DRINKING WATER AS PER BUREAU OF INDIAN STANDARDS 10500, & USING THE AGILENT 5100 ICP-OES

Analysis of Mineral and Heavy Metal Content in Beverages Using the Teledyne Leeman Labs Prodigy Plus ICP-OES

Determination of 22 Elements Following US EPA Guidelines with a New Megapixel CCD ICP-OES

Amplifying ICPMS Productivity Using Discrete Sampling Technology

Ultra-fast ICP-OES determinations of base metals in geochemical samples using next generation sample introduction technology

EU Water Analysis Using the Thermo Scientific icap 7400 ICP-OES Duo

Direct Analysis of Photoresist by ICP-MS. Featuring the Agilent Technologies 7500s ICP-MS

Analysis of Environmental Samples with the Agilent 730-ES Following US EPA Guidelines

Automating EPA 6020 Compliant Analysis with the Agilent 7900 ICP-MS and ESI prepfast Autodilution System

The Determination of Alloying Elements in High-Carbon Steel using Radially Viewed Inductively Coupled Plasma Optical Emission Spectrometry (ICP-OES)

Sprint analysis of lubricating oils using the Thermo Scientific icap 7600 ICP-OES

Benefits of running organic matrices using the Agilent 5100 ICP-OES fast, robust, high performance analysis

Increased Sample Throughput for ICP-OES Applied to U.S. EPA Method 200.7

Fields of Application / Industry:

The Agilent Atomic Spectroscopy portfolio for Environmental applications AA, MP-AES, ICP-OES, ICP-MS & ICP-QQQ

Analysis of Stainless Steel by Dual View Inductively Coupled Plasma Spectrometry

Analysis of Stainless Steel by Dual View Inductively Coupled Plasma Spectrometry

The image part with relationship ID rid4 was not found in the file. Welcome

High matrix tolerance of the Thermo Scientific icap 7000 Plus Series ICP-OES with the radial Ceramic D-Torch and the sheath gas adaptor

Analysis of Trace Metals in Surface and Bottled Water with the Optima 7300 DV ICP-OES

EU water analysis using the Thermo Scientific icap 7400 ICP-OES Duo

Analysis of Samples Related to Nuclear Submarine Operation

ICP Expert software. Technical Overview. Introduction

Functionality. Normal Operation

ESI SC-FAST Sample Introduction Solutions for PerkinElmer ICP-OES and ICP-MS Systems

US EPA Method using the Thermo Scientific icap 7600 ICP-OES Duo

Analysis of Trace Elements in Seawater Using the Thermo Scientific icap 7000 Series ICP-OES Duo

Atomic Spectroscopy Solutions for Environmental Applications

US EPA Method using the Thermo Scientific icap 7600 ICP-OES Duo

Analysis of inorganic impurities in lubricating oils by ICP-MS

Collaborative Efforts for Creating a Robust Trace Metals Analytical Procedure for Flue Gas Desulfurization Wastewaters by ICP-MS

Avio 200 ICP-OES Flat Plate

Increase productivity for environmental sample analysis using the SVS 2+ Switching Valve System for Agilent 5100 SVDV ICP-OES

Analysis of wear metals and contaminants in engine oils using the 4100 MP-AES

Application Note. Abstract. Authors. Environmental

Analytically Monitoring the Effect of Fracturing Activity

Agilent 5100 ICP-OES DUAL VIEW ICP-OES MINUS THE WAIT

Multi-element determination in pharmaceutical preparations using the Thermo Scientific icap Q ICP-MS

Analysis of elemental impurities in drug products using the Thermo Scientific icap 7400 ICP-OES Duo

S4 T STAR Biopharmaceutical production: Rapid nutrient and contaminant analysis of cell culture media by TXRF spectroscopy

Radial, Axial or Dual View ICP: Which Do You Choose? Manny Almeida Teledyne Leeman Labs, Inc. Hudson, NH

icap 7000 Plus Series ICP-OES Streamlined performance and ultra-low ICP-OES detection limits for routine laboratories

Tender Document. National Centre of Excellence in Analytical. Chemistry, University of Sindh, Jamshoro. Inductive Coupled Plasma (ICP -OES) ISSUED BY:

ICP-AES Determination of 15 Kind of impurity elements in the Vanadium-aluminum alloy

INTRODUCTION. Journal of International Scientific Publications Ecology & Safety ISSN , Volume 9, 2015

Analysis of 14 Trace Elements in Stainless Steel

OPTIMA 4000 DV Series of ICP-OES Systems

EXPAND YOUR RANGE EXTEND YOUR RESOURCES. Avio 500 ICP Optical Emission Spectrometer

The Determination of Trace Elements in Stainless Steel by Forked Platform GFAAS

SECTIOn 4. Claritas PPT Multi-Element Standards for ICP-MS

Accurate. Robust. Reliable. AGILENT 710 SERIES ICP-OES

Accurate. Robust. Reliable. AGILENT 710 SERIES ICP-OES

Trace Elements in Petrochemical Samples: Achieving Excellent Analytical Results

Achieving Optimum Throughput in ICP-MS Analysis of Environmental Samples with the Agilent 7500ce ICP-MS Application

PROCUREMENT PROCEDURE OF CPRI (NON WORKS) Dt of Revision : Issue Dt. :

The Determination of Trace Elements in Waters using the US EPA Method and the Thermo Scientific icap 6500 ICP-OES (Duo)

Common Challenges facing Laboratories doing Elemental Analysis Today

Thermo Scientific icap 7000 Plus Series ICP-OES. Gain more power. experience more performance

Rubber and plastics gloves for food services Limits for extractable substances

CERTIFICATE OF ANALYSIS

Zinc Testing and On Site Calibration for Water Testing Detection Range: 1 15ppm

Direct measurement of trace rare earth elements (REEs) in high-purity REE oxide using the Agilent 8800 Triple Quadrupole ICP-MS with MS/MS mode

Water Analysis Using ICP-OES with an Ultrasonic Nebulizer

Characterization of Surface Metals on Silicon Wafers by SME-ICP-MS. Featuring the Agilent Technologies 7500s ICP-MS

Inductively coupled plasma (ICP) spectroscopy for online measurements of trace metal emissions at the 250 kw PACT furnace

National Food Safety Standard

ICP-OES. Varian Vista-MPX CCD Simultaneous ICP-OES

Improved Antimony Recoveries in Soil Matrices by 3050B/6010B. DataChem Laboratories, Inc. Robert P. Di Rienzo Jeffery S. Ward John T.

Agilent Atomic Spectroscopy Solutions for Energy & Chemicals AA, MP-AES, ICP-OES, ICP-MS.

Uranium Testing and Site Calibration for Water Testing Detection Range: 2 60ppb

Introducing the new Agilent 7800 Solution-Ready ICP- MS. Agilent Technologies 2015

Merits of EPA Method 1640:

Rick Mealy Program Chemist Laboratory Certification Program. Re-visiting Spectral Correction in ICP-OES 2017 NEMC

Analysis of Metals in Water, Stream Sediments and Floodplain Soils Collected March 21-23, 2005 from the Bayou Creek System. David J.

Ultra-Trace Analysis of Beryllium in Water and Industrial Hygiene Samples by ICP-MS Application

Thermo Scientific icap 7000 Plus Series ICP-OES. Gain more power. experience more performance

Correlation coefficient

Optima 8x00 Series. ICP Optical Emission Spectrometers

Determination of Elemental Bad Actors (As, Hg and Si) in Petrochemical Samples Using ICP-AES and ICP-MS

The Determination of Toxic Metals in Waters and Wastes by Furnace Atomic Absorption

Eco Plasma Innovative Inductively Coupled Plasma Technology

ABSTRACT. This study investigates the use of inductively coupled plasma-optical emission spectrometry

Application Note. Author. Abstract. Pharmaceuticals. Detlef Wilhelm ANATOX GmbH & Co. KG. Fuerstenwalde, Germany mau

AMAZINGLY CAPABLE REMARKABLY AFFORDABLE. Avio 200 ICP Optical Emission Spectrometer. For research use only. Not for use in diagnostic procedures.

ELEMENTS by ICP 7301 (Aqua Regia Ashing)

Accuracy and Precision. Dilution Error in Error in Factor Accuracy Precision 200 <2% <2%

ELEMENTS by ICP 7301 (Aqua Regia Ashing)

US EPA Method using the XSERIES 2 ICP-MS

This method is applicable to the following parameters: Nitric Hydrochloric acid digestion, Instrumental analysis.

Cadmium Testing and On Site Calibration for Water Testing Detection Range: ppm

Metal Aerosol Emissions from Biomass Combustion

PINAACLE 500/900 AA AND SUPPLIES CONSUMABLES. Consumables and Supplies Reference Guide

Guidelines for Trouble Shooting and Maintenance of ICP-OES Systems. Eric Vanclay Product Manager Spectroscopy Consumables May 2, 2012

Transcription:

Composition Analysis of Animal Feed by HR ICP-OES Abstract The High-Resolution Array ICP-OES equipped with Standard-Kit was used for the analysis of Al, B, Ca, Co, Cr, Cu, Fe, I, K, Na, Mn, Mg, Mo, Ni, P, S, V and Zn in an animal feed sample. The sample was digested in 3 ml HNO 3 and 0.5 ml HCl by microwave (TOPWAVE ), filled up to a total volume of 20 ml, subsequently diluted by factor 50 to give a nominal matrix concentration of 0.5 g/l and measured with an aqueous standard calibration routine without matrix matching using 1000 mg/l multiple and single element standards from SIGMA ALDRICH. Method robustness was further tested from comparison of multiple lines for elements prone to spectral interferences (e.g. Cu, Ni, P, V and Zn) and a spike recovery test. Trace impurities and matrix-elements including Calcium, Iodine, Magnesium, Sodium and Potassium were determined from the same sample with excellent precision using Dual View PLUS. That is agreement of results, good recovery rates and RSD values about 1% were realized using interference-free emission lines for all elements. However, for Iodine prominent Phosphorous interferences on the I178.215 nm emission line were successfully removed by the CSI-Tool, which rules out overestimation of Iodine in Phosphorous-rich matrices. Challenge Interference-free Dual View PLUS method, reduction of detection limits Matrix Animal feed (HNO 3, HCl) Purpose Method development for QC lab Matrix-specific detection limits smaller than 1 µg/l (ppb) for all metals and 5 ppb for Iodine were achieved here, which highlights the unique sensitivity of the benefiting QC labs dealing with animal feed samples. 1/9

Materials and Methods Calibration Table 1: Concentration of calibration standards Element Unit Cal.0 Cal.1 Cal.2 Cal.3 Cal.4 Al mg/l 0 0.625 1.25 10 - B mg/l 0 0.25 0.5 4 - Ca, K mg/l 0 12.5 25 200 - Co, Cr, Mo, Ni, V mg/l 0 0.125 0.25 2 - Cu, Zn mg/l 0 0.1875 0.375 3 8 Fe mg/l 0 0.5625 1.125 9 - I µg/l 0 0.2 - - - Mg mg/l 0 2.5 5 40 - Mn mg/l 0 0.1875 0.375 3 5 Na mg/l 0 5 10 80 200 P mg/l 0 10 20 160 - S mg/l 0 3.125 6.25 50 - Calibration Curves 2/9

Method Parameters Table 2: Plasma configurations and set-up of the sample introduction system Parameter Specification Power 1200 W Plasma gas flow 12 L/min Auxillary gas flow 0.5 L/min Nebulizer gas flow 0.6 L/min Nebulizer Concentric nebulizer, 1.0 ml/min, borosilicate Spray chamber Cyclonic Spray Chamber, 50 ml, borosilicate Outer tube/inner tube Quartz / Quartz Injector Quartz, 2 mm Pump tubing PVC Sample pump rate 1.0 ml/min Rinse/ Read delay 45 s Pump fast run time 15 s Autosampler yes 3/9

Evaluation Parameters Table 3: Overview of method-specific evaluation parameters Element Line Plasma-view Integration- Read Evaluation [nm] Mode time [s] No. of pixel Baseline fit Polynomial degree Correction 2 Al 396.152 axial spectrum 3 3 ABC 1 auto - B 249.773 axial spectrum 3 3 ABC auto CSI 3 Ca 317.933 radial spectrum 3 3 ABC auto - Co 228.615 axial spectrum 3 3 ABC auto - Cr 267.716 axial spectrum 3 3 ABC auto - Cu 213.598 axial spectrum 3 3 ABC auto - 327.396 axial spectrum 3 3 ABC auto - Fe 238.204 axial spectrum 3 3 ABC auto - I 178.215 axial spectrum 3 3 ABC auto CSI, IEC 4 K 766.491 radial spectrum 3 3 ABC auto - Mg 285.213 axial PLUS spectrum 3 3 ABC auto - Mn 259.372 axial spectrum 3 3 ABC auto - Mo 202.030 axial spectrum 3 3 ABC auto - Na 589.592 radial PLUS peak 3 3 ABC auto - Ni 221.648 axial spectrum 3 3 ABC auto - 231.604 axial spectrum 3 3 ABC auto - 177.434 axial spectrum 3 3 ABC auto - P 178.224 axial spectrum 3 3 ABC auto - 213.618 axial spectrum 3 3 ABC auto - S 182.565 axial spectrum 3 3 ABC auto - V Zn 292.401 axial spectrum 3 3 ABC auto - 292.464 axial spectrum 3 3 ABC auto - 202.548 axial spectrum 3 3 ABC auto - 206.200 axial spectrum 3 3 ABC auto - 1 automatic baseline correction (ABC) 2 internal standard (IS) and/or mathematical corrections of spectral interferences 3 correction of iron interference by CSI-Tool recommended, but not used here 4 correction of phosphorous interference by CSI-Tool or inter-element correction (IEC) were used 4/9

Results and Discussion Table 4: Overview of results for animal feed sample Element Line [nm] 2 Potential Sample concentration in mg/l RSD Spike recovery test DL 3 interference 1 expected found % mg/l % µg/l Al 396.152 1.05 1.006 0.26 4 97.7 0.42 B 249.773 0.060 0.058 0.84 1.6 99.1 0.46 Ca 317.933 60.7 61.05±2.32 0.49 80 99.4-4 Co 228.615 < 0.01 < DL 5-0.8 97.3 0.39 Cr )6 267.716 P 0.016 0.004±0.0315 2.72 0.8 98.6 0.11 Cu )7 327.396 1.01 1.083±0.0818 0.33 3.2 97.6 0.52 213.598 P - 1.099±0.0664 0.38 3.2 98.4 1.54 Fe 238.204 3.21 3.163±0.072 0.18 3.6 97.7 0.13 I 178.215 P - 153.6 )8 0.27 8 98.8 4.97 K 766.491 56.2 55.1±0.5355 0.48 80 96.9-4 Mg 285.213 19.97 19.93±0.1207 0.71 16 98.7 0.16 Mn 259.372 0.70 0.698±0.0966 0.62 2 98 0.02 Mo 202.030 < 0.01 0.0031±0.0186 12.29 0.8 94.5 0.76 Na 589.592 14.88 16.24±4.623 0.31 80 103-4 Ni )9 221.648-0.0035±0.0406 5.87 0.8 103 0.50 231.604 OH 0.025 0.0032±0.0421 6.13 0.8 96.7 0.35 P )10 177.434-52.44±0.7913 0.24-4 - 4-4 178.224 I 52.69 52.88±0.9349 0.15 64 102 11.0 213.618 Cu - 49.22±0.686 0.41 64 96 10.5 S 180.672 19.22 20.53±0.1324 0.47 20 101 5.2 V 292.401 < 0.005 < DL - 0.8 102 0.23 292.464 - < DL - 0.8 102 0.2 Zn 202.548-21.66 )11 ±0.1445 0.6 3.2 102 0.19 206.200 22.9 21.58 )11 ±0.3608 0.36 3.2 95.7 0.25 1 likely spectral interferences on conventional ICP-OES instruments due to line overlap that are well-resolved (not present) on the 2 RSD from 3 replicate measurements per sample; not given when sample content was lower than detection limit 3 method-specific detection limit obtained from 3σ of SD on QC Blank (11 repetitive runs) 4 value not obtained 5/9

5 value below detection limit 6 expected value too high probably due to interference from P 267.711 nm line (seems plausible as Phosphorous concentration in the sample is very high) 7 excellent agreement of copper results for two lines shows that Cu 213.598 nm lines is not interfered by P 213.618 nm even for high Phosphorous contents 8 no confidence range due to number of calibration points; CSI-corrected value given here that was confirmed by inter-element correction (IEC, using P 177 line) 9 expected value too high probably due to interference from OH line; see good agreement of results for Ni 221 and Ni 231 on PlasmaQuant PQ 9000 Elite 10 agreement of Phosphorous results for three different lines two of which typically are spectrally interfered on conventional ICP-OES instruments 11 value exceeding the calibration range Application advantages Selection of High-Resolution spectra for animal feed sample (blue), Cal.1 (red) and blank (grey); automatic baseline fit (ABC, green) Fe (can be removed by CSI) Al 396.152 nm B 249.773 nm Ca 317.933 nm Co 228.615 nm 6/9

P Cu Cr 267.716 nm Cu 213.598 nm and P 213.618 nm Fe 238.204 nm K 766.491 nm Mg 285.213 nm Mn 259.372 nm Mo 202.030 nm Na 589.592 nm 7/9

Ni 231.604 nm S 180.672 nm V 292.401 nm V 292.464 nm Zn 206.200 nm 8/9

as-received HR ICP-OE spectrum I 178.215 nm Phosphorous Phosphorous that is a matrixelement does affect the Iodine trace detection (prominent P178 partly overlaps I178) Iodine - false positive results for Iodine, if this spectral interference from Phosphorous is not removed after interference removal by CSI-Tool I 178.215 nm when a Phosphorous spectrum is subtracted a wellresolved Iodine signal with a FWHM of 2.4 pm is obtained Reference: ICP_OES_24_16_en.docx This document is true and correct at the time of publication; the information within is subject to change. Other documents may supersede this document, including technical modifications and corrections. Content may be used without written permission but with citation of source. 2016 Publisher: 9/9